河岸湿冷核电站的水蒸发:在法国Rhône河上的应用

Philippe Gosse, René Samie
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引用次数: 2

摘要

安装在河岸上的核电站(NPP)使用一次性或循环湿式冷却系统。虽然通过再循环冷却系统(RC)对主要是局部的河水蒸发进行定量评估并不涉及任何重大困难,但对于在下游水生环境中发生蒸发(称为强制蒸发)的一次通过冷却系统(OTC)来说,情况就不一样了。我们的研究将能量平衡温度模型应用于日内瓦湖下游的Rhône河。我们的研究结果表明,每发电1.5 m3/MWh的强迫蒸发的近似数字(2002年由EPRI提出并在文献中广泛使用)对于在流域中设置淡水平衡是有争议的,因为它没有考虑下游河流的盐度。下游淡水拉伸水体的滞留时间、断面形状和区域天气特征是需要考虑的关键因素。特别是,对于法国Rhône沿线安装了OTC系统的三个核电站,我们发现1994年至2015年期间,流经阿尔勒的淡水河产生的净电力的平均强迫蒸发在0.3至0.7 m3/MWh之间。这些值比沿河段安装RC系统的工厂所产生的蒸发量低3至8倍。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Water evaporation at wet-cooled nuclear power plants on river banks: Application to the French Rhône river

Nuclear power plants (NPP) installed on a river bank use once-through or recirculating wet cooling systems. While the quantitative assessment of mainly local evaporation of river water by a recirculating cooling system (RC) does not involve any major difficulty, the same cannot be said for the once-through cooling system (OTC) for which evaporation (called forced evaporation) occurs in the downstream aquatic environment. Our study applies an energy-balance temperature model to the Rhône River downstream from Lake Geneva. Our results show the approximate figure of 1.5 m3/MWh of forced evaporation per electricity produced (put forward in 2002 by EPRI and widely used in the literature) is debatable for setting a freshwater balance in a watershed because it does not consider the saltiness of the river downstream. The retention time of water bodies in the downstream freshwater stretch, the cross-section shape and regional weather characteristics appear to be key factors to take into account. In particular, for the three NPP with OTC systems installed along the French Rhône, we find an average forced evaporation between 0.3 and 0.7 m3/MWh of net electricity generated in the freshwater river stretch through to Arles between 1994 and 2015. These values are between three to eight times lower than those obtained for the evaporation generated by the plants with RC system installed along the river stretch.

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